Design
Experimental
In this experimental design process, L-systems were employed to generate lightweight artifact by exploring a range of angular degrees, including 30°, 60°, and 120°. This approach proved instrumental in crafting intricate and structurally efficient designs that can be realized with minimal material weight. The utilization of L-systems allowed for the exploration of diverse geometrical configurations, showcasing how variations in angular degrees can influence the form and complexity of the generated artifacts.
Using a generative design approach, a thallus pattern is created from a single curve in a form-finding process. Algorithms generate the pattern along the curve, resembling the organic pattern of a thallus. This pattern is applied to different geometries by mapping it onto various forms, showcasing the versatility of generative design in exploring complex patterns and adapting them to diverse design contexts.
Transparent Leaves
In this Bio experiment, leaves are treated with a specialized chemical liquid to make them transparent and reveal their patterns and structures. This process involves breaking the cells and removing pigments like chlorophyll to enhance visibility of the leaf’s vein network and tissues. The observed patterns can be an inspiration for creative design concepts in fields such as textiles, architecture, and product design, highlighting the beauty and complexity of nature’s designs.
Solid Fluidity
Creating a product design inspired by fluid patterns in nature involves observing and abstracting the dynamic, flowing movements of liquids or gases. The goal is to capture the essence of fluidity in a solid, tangible form. This design approach emphasizes smooth, continuous shapes, curved contours, and graceful transitions that mimic the natural flow and unpredictability of fluids. An approach to evoke a sense of movement and elegance, drawing inspiration directly from the fluid dynamics observed in nature.
An algorithmic method is employed to generate a parametric branching pattern suitable for female fashion design. This approach utilizes algorithms to create mapped branch-like structures that can be integrated into garments or accessories. The branching pattern is designed to mimic natural forms such as trees or veins, adding an organic aesthetics to fashion pieces.
The design concept for the towers is inspired by the adaptive behavior of sunflowers to varying sun radiation between seasons in Baghdad. The towers twist in response to changing solar intensity, creating shaded areas during high radiation periods and optimizing openings for views and natural light. This biomimetic approach aims to enhance energy efficiency and occupant comfort throughout the year.
